Author
SESHADRI, REKHA - Ag Research Limited | |
LEAHY, SINEAD - Ag Research Limited | |
ATTWOOD, GRAEME - Ag Research Limited | |
HOONG TEH, KOON - Ag Research Limited | |
LAMBIE, SUZANNE - Ag Research Limited | |
ELOE-FADROSH, EMILY - Department Of Energy Joint Genome | |
PAVLOPOULOS, GEORGIOS - Department Of Energy Joint Genome | |
HADJITHOMAS, MICHALIS - Department Of Energy Joint Genome | |
VARGHESE, NEHA - Department Of Energy Joint Genome | |
PALEVICH, NICOLA - Ag Research Limited | |
JANSSEN, PETER - Ag Research Limited | |
COOKSON, ADRIAN - Ag Research Limited | |
NOEL, SAMANTHA - Ag Research Limited | |
SONI, PRIYA - Ag Research Limited | |
REILLY, KERRI - Ag Research Limited | |
ATHERLY, TODD - Ag Research Limited | |
ZIEMER, CHERIE - Department Of Energy Joint Genome | |
WRIGHT, ANDRE-DENNIS - Aberystwyth University | |
ISHAQ, SUZANNE - Aix-Marseille University | |
COTTA, MICHAEL - Former ARS Employee | |
Thompson, Stephanie | |
CROSLEY, KATIE - Institut National De La Recherche Agronomique (INRA) | |
MCKAIN, NEST - King Abdulaziz University | |
WALLACE, JOHN - King Abdulaziz University | |
FLINT, HARRY - King Abdulaziz University | |
MARTIN, JENNIFER - King Abdulaziz University | |
FORSTER, ROBERT - Lethbridge Research Center | |
GRUNINGER, ROBERT J - Lethbridge Research Center | |
MCALLISTER, TIM - Lethbridge Research Center | |
GILBERT, ROSALIND - Agri-Sciences Queensland | |
OUWERKER, DIANE - Agri-Sciences Queensland | |
KLIEVE, ATHOL - University Of Queensland | |
JASSIM, RAFAT - University Of Queensland | |
DENMAN, STUART - Csiro, Black Mountain Laboratories | |
MCSWEENEY, CHRIS - Csiro, Black Mountain Laboratories | |
ROSEWARNE, CARLY - Csiro, Black Mountain Laboratories | |
KOIKE, SATOSHI - Hokkaido University | |
KOBAYASHI, YASUO - Hokkaido University | |
MITSUMORI, MAKOTO - Hokkaido University | |
SHINKAI, TAKUMI - Hokkaido University | |
CRAVERO, SILVIO - Instituto Nacional De Tecnologia Agropecuaria | |
CERON CUCCHI, MARIA - Instituto Nacional Tecnologia Agropecuaria | |
PERRY, RECHELLE - Ag Research Limited | |
HENDERSON, GEMMA - Ag Research Limited | |
CREEVEY, CHRISTOPHER - Aberystwyth University | |
TARRAPON, NICOLAS - Aix-Marseille University | |
LAPEBIE, PASCAL - Aix-Marseille University | |
DRULA, ELODIE - Aix-Marseille University | |
LOMBARD, VINCENT - Aix-Marseille University | |
RUBIN, EDWARD - Department Of Energy Joint Genome | |
KYRPIDES, NIKOS - Department Of Energy Joint Genome | |
HENRISSAT, BERNARD - Aix-Marseille University | |
WOYKE, TANJA - Department Of Energy Joint Genome | |
IVANOVA, NATALIA - Department Of Energy Joint Genome | |
KELLY, WILLIAM - Ag Research Limited |
Submitted to: Nature Biotechnology
Publication Type: Peer Reviewed Journal Publication Acceptance Date: 9/1/2017 Publication Date: 3/19/2018 Citation: Seshadri, R., Leahy, S.C., Attwood, G.T., Hoong Teh, K., Lambie, S.C., Eloe-Fadrosh, E.A., Pavlopoulos, G.A, Hadjithomas, M., Varghese, N.J., Paez-Espino, D., Hungate1000 Project Collaborators*: Palevich, N., Janssen,P.H.,Ronimus, R.S., Noel, S., Soni, P., Reilly, K., Atherly, T., Ziemer, C., Wright, A.D., Ishaq, S., Cotta, M., Thompson, S.R., Crosley, K., Mckain, N., Wallace, R.J., Flint, H.J., Martin, J.C., Forster, R.J., Gruninger, R.J., McAllister, T., Gilbert, R., OuwerkerK, D., Klieve, A., Jassim, R.A., Denman, S., McSweeney, C., Rosewarne, C., Koike, S., Kobayashi, Y., Mitsumori, M., Shinkai, T., Cravero, S., Ceron Cucchi, M.*, Perry, R., Henderson, G., Creevey, C.J., Tarrapon, N., Lapebie, P., Drula, E., Lombard, V., Rubin, E., Kyrpides, N.C., Henrissat, B., Woyke, T., Ivanova, N.N, Kelly, W.J. 2018. Cultivation and sequencing of rumen microbiome members from the Hungate1000 Collection. Nature Biotechnology. 36:359-367. doi: 10.1038/nbt.4110. DOI: https://doi.org/10.1038/nbt.4110 Interpretive Summary: Ruminant animals including domestic cattle, sheep, and goats offer the unique advantage over other livestock of converting low value, lignocellulosic plant material into high value animal proteins in the form of milk, meat and fibre products, via microbial digestion and fermentation in their rumens. Consequently, the rumen represents one of the most rapid and efficient lignocellulose depolymerisation and utilization systems known. Here we present the results from a coordinated effort by rumen microbiology researchers worldwide (the Hungate1000 project) whose aim was to generate a community resource of reference microbial genomes. This genome set has been used to increase understanding of rumen microbes by examining their degradative and physiological potential, determining their occurrence in environmental samples, and identifying potential rumen-specific evolutionary adaptations. These results provide a rich resource to identify alternative antimicrobials and biotechnologically relevant carbohydrate degrading enzymes for use as animal feed additives or application in lignocellulose-based bioconversion processes. Technical Abstract: Ruminant livestock underpin food security in many regions of the world. Their growth and productivity depend on a symbiotic microbial community within the rumen fermenting plant polysaccharides into nutrients for the host. Here we present a reference set of 410 rumen isolate genomes covering all known major archaeal and bacterial families. We determined the polysaccharide degradative and other metabolic potential of these organisms, assigning unclassified taxa to previously indeterminate functional roles. Examining recruitment of over 8000 metagenome samples from diverse habitats, most species were detected in available rumen samples, however a significant number were also detected in human digestive samples. Comparisons with 388 human intestinal isolate genomes revealed rumen-specific adaptations including the ability to synthesize cofactor vitamin B12 de novo, and ongoing evolution by gene loss of glycolytic enolase. Underrepresentation of markers of oxygen tolerance and sporulation allude that rumen microbes do not encounter environmental stressors to the same extent, supporting the notion of vertical inheritance of the rumen microbiome. This genome collection constitutes a biological resource that can be used to advance our understanding of rumen function, and help find a balance between increased food production and reduced greenhouse gas emissions. |